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Found 8 papers, 0 papers with code
On the locomotion of the slider within a self-adaptive beam-slider system
In the present work, first, an analytical approximation of the beam's response on the slow time scale is derived as function of the slider position, which is a crucial prerequisite for identifying the main drivers of the slider's locomotion.
Experimental analysis of the TRC benchmark system
Amplitude-dependent modal data was obtained from phase resonance and response controlled tests.
Robust and fast backbone tracking via phase-locked loops
For phase detection, an adaptive filter based on the LMS algorithm is used, which is shown to be superior to the synchronous demodulation commonly used.
Computational and experimental analysis of the impact of a sphere on a beam and the resulting modal energy distribution
The measurements are confronted with predictions obtained using two different approaches, state-of-the-art Finite Element Analysis and a recently developed computational approach involving a reduced-order model.
Prediction and validation of the strongly modulated forced response of two beams undergoing frictional impacts
To this end, we use a recently developed modeling and simulation approach.
Nonlinear damping quantification from phase-resonant tests under base excitation
In the case of shaker-stinger excitation, the applied excitation force is commonly measured in order to quantify the amplitude-dependent modal damping ratio from the phase-resonant test data.
Development of a Fully-Coupled Harmonic Balance Method and a Refined Energy Method for the Computation of Flutter-Induced Limit Cycle Oscillations of Bladed Disks with Nonlinear Friction Contacts
The currently available simulation methods for blade flutter account for nonlinear interactions, at most, in only one domain, the structure or the fluid, and assume the behavior in the other domain as linear.
Computational Engineering, Finance, and Science
Experimental assessment of polynomial nonlinear state-space and nonlinear-mode models for near-resonant vibrations
The second methodology exploits uncontrolled experiments with broadband random inputs to build polynomial nonlinear state-space models using advanced system identification tools.
